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a. The Office Action suggested that on page 8, line 18, the term -allows- 
be replace with the term --allow--. 

b. The Office Action suggested that page 10, line 29 be updated to show 
correct units. In response, applicants changed "(m" to -mm- to clarify the units. 

c. The Office action suggested that, "reference character '116' has been 
used to designate both an end (page 10, line 18) and a housing (page 10, line 20). In 
response applicants have amended above and submitted new formal drawings, which 
change the specification and drawing such than numeral "117" indicates the housing 
and numeral "116" indicates the ends. 

d. The Office Action suggested that reference character "414" has not been 
included in the drawings. Applicants have added the character to the new drawings. 

e. The Office Action suggested that reference character "1 08" has not been 
included in the drawings. Applicants have added the character to the new drawings. 

f. The Office Action suggested that reference character "272" has been 
used to designate both a rigid frame (page 15, line 27) and a dielectric sheet (page 15, 
line 28). In response, applicants have changed "sheet 272" to "sheet 270" to be 
consistent with the rest of the application. 

g. The Office Action suggested that reference character "278" has not been 
included in the drawings. Applicants have removed the character from the application. 

h. The Office Action suggested that reference character "288" has not been 
included in the drawings. Applicants have changed the character to "248" in the 
specification to correspond with the rest of the application. 

i. The Office Action suggested that reference character "296" has not been 
included in the drawings. Applicants have added the character to the new drawings. 

j. The Office Action suggested that a reference is missing on page 22, line 
26. Such reference has been added to the application. 

k. The Office Action suggested that reference character "514" has not 
been included in the drawings. Applicants have removed the character from the 
application. 



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II. Drawings 

The Office Action objected to the drawings. The Office Action suggested that 
the drawings included reference numbers "128" in Figure 2; "170" in Figure 4; and 
"248" in Figure 6; which were not in the specification. A new set of formal drawings is 
submitted herewith and has the following changes: 

Reference numeral "128" has been removed from Figure 2. 

Reference numeral "170" has been changed to "1 16" in Figure 4 to correspond 
to the specification. 

With regard to reference numeral "248", Applicants point out that the 
specification recites numeral "248" at page 15, line 12. 

The Office Action also suggested that reference number "502" in Figure should 
be "520". Such change has been made. 

III. Claim Objections 

The Office Action objected to claim 21 because it was dependent on claim 22. 
Claim 21 has been amended to be dependent upon claim 20 as suggested by the 
Office Action. 

IV. Claim Rejections under 35 U.S.C. 101 

The Office Action rejected claim 18 under 35 U.S.C. 101 suggesting that the 

claim discloses an invention that "is inoperative". The Office Action also suggests 

that the, "applicant intends the term 'protrusion', as in claim 1, to be defined as a 

probe means, since claim 1 distinguishes a protrusion from an opening." However, 

the Office Action misinterprets that term "protrusion". The Examiner is directed to 

page 4, line 5 as follows: 

As used herein, the term "protrusions" generally refers to 
controlled forces or displacements applied by a probe, or device to 
a fabric sample for causing at least a portion of the fabric sample to 
be forced through an opening defined in a plane of a sample 
support member. Preferably a protrusion as used herein will be of 
sufficient magnitude for effecting such sample manipulation without 



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piercing the sample. In some embodiments, however, it is 
contemplated that piercing will or desirably should occur. 

Thus, the term protrusion generally refers to a force or displacement, which 
though may be achieved by use of a probe means, is not so limited. In light of this 
information. Applicants request that the rejection of claim 18 under 35 U.S.C. 101 be 
withdrawn. 

V. Reiections under 35 U.S.C. 103 

The Office Action rejected claims 1-35 and 50 under 35 U.S.C. 103(a) as being, 
unpatentable over combinations of U.S. Patent Nos. 3,835,697, 5,795,989, 3,618,372, 
3,818,751, 2,786,352, 4,567,774, 3,151,483, 3,613,445 and 2,590,839 respectively to 
Schmider, Simmons, Beckstrom, Karper, Sobota, Manahan, Plummer, Dent and 
Clapham. Applicants respectfully traverse these rejections and request 
reconsideration in light of the following remarks. To expedite prosecution, however. 
Applicants have amended claim 1 . 

Applicants traverse on at least two grounds. First, Applicants believe that the 
claim rejections are legally inadequate since the motivation cited by the Office Action 
to combine the references of record is legally inadequate. Second, all the limitations 
of claims are not taught or suggested by the references of record. 

For rejecting claim 1 and claims 2-31 of the present application, the Office 
Action asserts a strained combination of three references and suggests that since one 
step of claim 1 is taught by each of the three references, the claimed invention is 
obvious. In particular, the Office Action reads, at page 6, that, "Schneider clearly 
anticipates the first step of claim 1... Sobota clearly anticipates the second step of 
claim 1 ...[and] Dent clearly anticipates the third steps of claim 1 ..." The Office Action 
then reads that a, "prima facie case to combine references by one of ordinary skill in 
the art has been established by the fact that all the references are within the same 
technology of testing fabric/sheet materials." Thereafter, the Office Action reasserts 
this same "prima facie case to combine references" for using additional references to 
reject the claims dependent on claim 1 (i.e., claims 2-31) and to reject claims 32-34. 

This rejection of claim 1 , its dependents and claims 32-34 is legally inadequate 



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because the reason for combination of the references in the office action is too broad. 
As the CAFC wrote in In re Lee. (CAFC, 2002), emphasis added, "there must be some 
motivation, suggestion or teaching of the desirability of making the specific 
combination that was made by the applicant" See also In re Fine, 5 USPQ2d 1596 
(Fed. Cir. 1988); In re Dow Chemical Co., 5 USPQ2d 1529 (Fed. Cir. 1988); In re 
Geiger, 2 USPQ2d 1276 (Fed. Cir. 1987). In contrast to this requirement, the Office 
Action suggests, at page 6, that three different steps from three different references 
can be combined for an obviousness rejection merely because the references come 
from one very large category of technology (i.e., "testing fabric/sheet materials"). Such 
a rejection is based upon hindsight and should be withdrawn. 

Applicants also traverse the present rejections on the ground that not all of the 
limitations of the claims are taught or suggested by the references of record or the 
prior art. The Office action reads, at page 8, that, "Claims 4, 5, and 6 are each 
directed to the method of claim 1 comprising throughput rates for each fabric sample 
of not greater than ten minutes, not more than two minutes, and not more than 20 
seconds." The Office Action further reads that, "Schneider, Sobota and Dent do not 
disclose that their devices are limited to operating during a specific time period." 
Based on this, the Office Action makes the conclusory statement that the, "devices of 
Schneider, Sobota or Dent individually have the inherent capability to test a fabric 
sample within or for any amount of time desired." 

Such a conclusory statement, which is based upon what the references of 
record do not teach or suggest, is inadequate to satisfy the legal requirements of an 
obviousness rejections. As the CAFC wrote in reversing the BPAI, "The board cannot 
rely on conclusory statements when dealing with particular combinations of prior art 
and specific claims, but must set forth the rationale on which it relies." In re Lee . 61 
USPQ2d 1430, 1435 (CAFC, 1997). Thus, the conclusory statement in the Office 
Action does not substitute for some teaching or suggestion in the prior art to perform 
the method of the present invention at the rates in claims 4, 5 and 6. 

In conclusion. Applicants contend that the rejections in the Office Action are 
legally inadequate and should be withdrawn. 



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VI. Claim 1 Amendments 

Claim 1 has been amended to provide "four" samples on "at least one 
substrate" and "protrusions of each of the samples... are caused at a throughput rate 
no greater than about two minutes per sample." Applicants believe that these 
amendments distinguish even further over the references of record, particularly in view 
of the remarks above. 

The foregoing amendments are taken in the interest of expediting prosecution 
and there is no intention of surrendering any range of equivalents to which Applicant 
would othenwise be entitled in view of the prior art. 

By amending the application, the Applicants do not concede that the patent 
coverage available to them would not extend as far as the original claim. Rather, 
Applicants intend to file a continuation application to pursue the breadth of the 
claims as filed. Applicants believe that the Examiner has not made a sufficient 
showing of inherency of the teachings of the asserted prior art, especially given the 
lack of teachings in the cited references of the properties that Applicants have 
recited in their claims. 

Further, by the present amendment, it does not follow that the amended 
claims have become so perfect in their description that no one could devise an 
equivalent. After amendment, as before, limitations in the ability to describe the 
present invention in language in the patent claims naturally prevent the Applicants 
from capturing every nuance of the invention or describing with complete precision 
the range of its novelty or every possible equivalent. See, Festo Corp. v. Shoketsu 
Kinzoku Kogyo Kabushiki Co. , 62 USPQ2d 1705 (2002). Accordingly, the foregoing 
amendments are made specifically in the interest of expediting prosecution and there 
is no intention of surrendering any range of equivalents to which Applicants would 
othenA^ise be entitled. 

CONCLUSIONS 

In view of Applicants' amendments and remarks, the Examiner's rejections 
are believed to be rendered moot. Accordingly, Applicants submit that the present 



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application is in condition for allowance and requests that the Examiner pass the case 
to issue at the earliest convenience. Should the Examiner have any question or wish 
to further discuss this application, Applicant requests that the Examiner contact the 
undersigned at (248) 593-9900. 

If for some reason Applicant has not requested a sufficient extension and/or 
have not paid a sufficient fee for this response and/or for the extension necessary to 
prevent the abandonment of this application, please consider this as a request for an 
extension for the required time period and/or authorization to charge Deposit Account 
No. 50-0496 for any fee which may be due. 




Respectfully submitted, 



Dated: 




, 2003 



Scott A. Chappie ^ 
Registration No. 46.287 
DOBRUSIN &THENNISCH PC 
401 S. Old Woodward Ave., Ste. 31 1 
Birmingham, Ml 48009 
(248) 593-9900 



Customer No. 25215 



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VERSION WITH MARKINGS TO SHOW CHANGES MADE 



In the Specification: 

Paragraph on page 8, beginning at line 7 has been amended as follows: 

Fig. 3A shows a cross-sectional view of one preferred sample holder 102 
which is comprised of a first plate 402 having a plurality of through-holes 406 and a 
second plate 404 having a plurality of openings 407 wherein the through-holes 406 
and the openings 407 are aligned with each other forming tunnels 410 within the 
sample holder 102. Since the array 230 are protruded through the openings 407, 
their size and shape can affect the fabric handle measurements and are taken into 
consideration in measuring the fabric handle of the array 230. For instance, each of 
the openings 407 preferably is large enough for the array sample 230 to collapse 
upon itself, while still maintaining a portion of itself in physical contact with the walls 
of the opening 407 during the protrusions. Referring to Fig. 3A, one preferred 
leading edge 408 to the opening 407 must allow fallowsl for a smooth transition for 
the sample 230 to transfer from a flat state to the bent and folded state which occurs 
during the protrusions. Thus, it is preferred that the opening 407 is constructed of a 
smooth material or coated with a smooth material (e.g., a plastic layer, a coating, or 
the like). Although the openings 407 can be any shape and/or size, it is preferred 
that they are funnel-shaped or otherwise a rounded or a tapered periphery with a 
diameter at the top of each funnel that is twice of the bottom diameter, and with the 
height of the sloped section at least equal to the height of the straight section. For 
examples of other preferred embodiments of the openings 407 that may be used 
during fabric handle screens, see Fig. 3C-J. Other variations or combinations of 
such structures are also possible. The through-holes 406 can also be any shape or 
size as long as they do not restrict or inhibit the protrusions of the array 230 by the 
probes 104. Furthermore, depending on the direction of the protrusions, the first 
plate 402 may be placed above the second plate 404 with its openings 407 as 
shown in Fig. 3A, or vice versa, as shown in Fig. 3B. 



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Paragraph on page 10, beginning at line 9, has been amended as follows: 

The PDMA 100 includes at least one actuator for moving the probes 104 and 
the samples 230 in relation to each other. In one preferred embodiment, the 
actuators are attached to the probes 104 and the samples 230 remain stationary. In 
another preferred embodiment, the actuators are attached to the sample holder 102 
and the probes remain stationary. In yet another preferred embodiment, both the 
probes 104 and the sample holder 102 have actuators attached allowing them to 
both become non-stationary. In an exemplary preferred embodiment, the PDMA 
100 includes first 110 and second 112 translation actuators for displacing the array 
230 in a direction normal 1 14 to surfaces containing the array 230 and the ends 116 
of the probes 104. The first translation actuator 110, which is attached to the 
sample holder 102 via a housing 117 rhousing 116] that surrounds the second 
translation actuator 112, provides relatively coarse displacement of the sample 
holder 102. A useful first translation actuator 110 includes a motorized translation 
stage available from POLYTEC PI under the trade name M-126 Translation Stage, 
which has a translation range of 25 mm and a resolution of 0.1 |j,m. The second 
translation actuator 112, which is attached directly to the sample holder 102, 
provides relatively fine displacement of the sample holder 102. A useful second 
translation actuator 112 includes a preloaded piezoelectric stack available from 
Polytec PI under the trade name P-753 LISA Linear PZT Stage Actuator, which has 
a translation range of 30 mm [(m1 and can provide a 100-N pushing force and a 20-N 
pulling force. The PDMA 100 typically controls the first 110 and second 112 
translation actuators using a DC motor controller and an amplifier/position servo 
controller, respectively, which are linked to a suitable general-purpose computer (not 
shown). In an alternative embodiment, the first 110 translation actuator is mounted 
on an x-y translation stage (not shown), which allows movement of the sample 
holder 102 in a direction substantially parallel to the surfaces containing the array 
230 and the ends of the probes 104. This latter embodiment is useful when the 
sample holder 102 must be moved laterally to align different groups of array samples 



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230 with the probes 104 during screening— i.e., when the PDIVIA employs fewer 
probes 104 than samples in the array 230 and the probes 104 are stationary. 

Paragraph on page 15, beginning at line 23, has been amended as follows: 

Fig. 7 and Fig. 8 provide further details of the sensors 106 and sensor boards 
232. 234, showing respectively, a bottom perspective view and a close-up top view 
of the first sensor board 232. The first 232 and second 234 sensor boards generally 
comprise a flexible multi-layer dielectric sheet 270 (e.g., polyimide) and a rigid frame 
272 (e.g., FR-4 epoxy glass laminate) that is bonded to the periphery of the dielectric 
sheet 270 [sheet 272]. Electrically conductive traces 274 are embedded on top 276 
or bottom surfaces [278] of the dielectric sheet 270, or between layers of the flexible 
sheet 270, forming a double-sided flex circuit 280. Each sensor 106 is mounted on 
the top surface 276 of the flex circuit 280, and leads 282 on the sensors 106 are 
connected to conductive traces 274 that terminate at a standard card edge 
connector 284. Conventional ribbon cables can be used to link the card-edge 
connector 284 with peripheral recording and control devices (not shown) allowing 
communication between the sensors 106 and the peripheral devices. 

Paragraph on page 16, beginning at line 30, has been amended as follows: 

Referring to Fig. 6-8, threaded holes 248[288], 290 in the upper 236 and 
lower 238 support plates are sized to receive set-screws 292 that the PDMA 100 can 
use to pre-load each of the sensors 106 mounted on either the first 232 or second 
234 sensor boards. As noted in the description of Fig. 4, the flexure strips 150 used 
to align the probes 104, are compliant for displacements normal 114 to the plane 
containing the array 230, but are mechanically stiff for displacements in other 
directions. Moreover, the effective spring constants of the flexure strips 150 are 
substantially less than the spring constants of the sensors 106 so that the flexure 
strips 150 ordinarily exert minimal influence on the measured responses of the array 
230 to protrusions. However, since the sensors 106 are mounted on the flex circuit 



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280, the set-screws 292 can apply a force to the stiffeners 286 and the sensors 106 
in absence of a force on the test fixture 118. A force recorded by the sensors 106 
will therefore be the sum of the force acting on the test fixture 118 and the pre-load 
force. Since many commercial force sensors can detect only tensile or compressive 
loads, pre-loading permits a compressive sensor to detect small tensile loads, or a 
tensile sensor to record small compressive loads, expanding the capabilities of the 
PDMA 100. Note that the lower support plate 238 and the second sensor board 234 
both include unthreaded holes 294, 296 that provide access to the set-screws 292 in 
the upper support plate 236. 

Paragraph on page 22, beginning at line 18, has been amended as follows: 

Fig. 10 shows a perspective view of another instrument suitable for screening, 
and specifically, an automated rapid serial system (ARSS) 500 that can be used to 
conduct high throughput fabric handle screening of an array of fabric samples by 
measuring responses of the array samples to protrusions. The ARSS 500 can be 
configured for use with parallel, serial or serial-parallel protocols. In a most 
preferred embodiment, the ARSS 500 can be configured for use in a rapid serial 
fashion with a high sample screening throughput. Detailed description of the ARSS 
500 is described in commonly owned and co-pending U.S. Patent Application Serial 

No. 09/939,252 rSerial No. ] titled "High Throughput Mechanical Rapid 

Serial Property Testing of Material Libraries," (P. Mansky) filed on August 24, 2001, 
which is herein incorporated by reference. Generally, ARSS 500 includes a variety 
of robotic instruments for automatically or programmably providing predetermined 
motions for protruding an array of fabric samples 502 according to a predetermined 
protocol. ARSS 500 may be adapted or augmented to include a variety of hardware, 
software or both to assist it in determining the fabric hand of the array members. 
Hardware and software for augmenting the robotic systems may include, but are not 
limited to, sensors, transducers, data acquisition and manipulation hardware, data 
acquisition and manipulation software and the like. Exemplary robotic systems are 



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commercially available from CAVRO Scientific Instruments (e.g., Model NO. 
RSP9652) or BioDot (Microdrop Model 3000). 

Paragraph on page 24, beginning at line 28, has been amended as follows: 

The ARSS 500 includes actuator(s) [514] for moving the probe(s) 512 and the 
samples 502 in relation to each other. In one preferred embodiment, the actuator 
[514] is attached to the probe 512 and the samples 502 remain stationary. In 
another preferred embodiment, the actuator [514] is attached to the sample holder 
504 and the probe 512 remains stationary. In yet another preferred embodiment, 
both the probe 512 and the sample holder 504 have actuators [514] attached 
allowing both of them to translate. 

In the Claims: 

Claims 4 and 5 have been canceled. Claims 1 and 21 have been amended 
as follows: 

1 . (Amended) A method for screening fabric handle of an array of fabric 
samples, comprising: 

providing an array of at least four [two] fabric samples upon at least one 
substrate : 

[protruding] causing protrusions of each of said fabric samples through 
openings in said at least one substrate wherein said protrusions are caused by 
contacting a probe with said fabric samples using an automated svstem that moves 
said probe, said fabric samples, or both relative to each other and wherein said 
protrusions are caused at a throughput rate no greater than about two minutes per 
sample ; and 

monitoring a response of each of said fabric samples to said protrusions for 
assisting in measuring relative fabric handle for each of said fabric samples . 

21. (Amended) The method of Claim 20 [22], wherein a gap of at least 
about one millimeter gap exists between said first plate and said second plate. 

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